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maestro/crates/maestro-protocol/src/display.rs
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Miguel PalhasandClaude Opus 5 25653abcf5
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ci / web (push) Successful in 31s
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feat(maestro): default structured view on for ACP agents
A Claude Code or Codex spawn now asks for the structured view unless the
operator says otherwise: the two spawn forms open with the box ticked and
`maestro spawn` takes `--terminal` to opt out. Once the operator works the
toggle, a command change no longer re-ticks it under them.

The support predicate moves to `maestro_protocol::display` so all three
clients gate on the same resolution.

Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
2026-09-07 10:18:07 +01:00

1087 lines
38 KiB
Rust

//! Path-abbreviation helpers shared by every client that renders a session's
//! directory (CLI, TUI, web (#117)). Ports of `web/src/types.ts` and
//! `web/src/tree.ts`'s `abbreviateCwd`, `abbreviateFolderName`, `mergeLinear`,
//! and `sessionTreePath` — keep them in sync.
use std::path::{Path, PathBuf};
use crate::{NameSource, Session};
/// The name a session was given (#125), if any. `None` for one that was never
/// renamed — clients fall back to the command.
pub fn custom_name(s: &Session) -> Option<&str> {
match s.metadata.get("name") {
Some(serde_json::Value::String(name)) => Some(name.as_str()),
_ => None,
}
}
/// Where [`custom_name`] came from (#131). A session carrying no
/// `name_source` — one named before the field existed — reads as
/// [`NameSource::User`], so an existing name is never treated as provisional.
pub fn name_source(s: &Session) -> NameSource {
match s.metadata.get(crate::NAME_SOURCE_KEY) {
Some(serde_json::Value::String(source)) => NameSource::from_wire(source),
_ => NameSource::default(),
}
}
/// Whether the card should render its name as provisional (#131): a generated
/// handle the daemon may still replace with one derived from the first
/// prompt. Both sidebars dim exactly this (docs/SIDEBAR.md).
pub fn is_provisional_name(s: &Session) -> bool {
custom_name(s).is_some() && name_source(s) == NameSource::Generated
}
/// Collapse a daemon's home dir to `~`. `home` empty leaves the path
/// untouched. Mirrors the web's `abbreviateCwd`.
pub fn abbreviate_dir(path: &Path, home: &str) -> String {
let p = path.to_string_lossy();
if !home.is_empty() {
if p == home {
return "~".into();
}
if let Some(rest) = p.strip_prefix(&format!("{home}/")) {
return format!("~/{rest}");
}
}
p.into_owned()
}
/// Result of [`abbreviate_folder_name`]: the last path segment kept verbatim,
/// and — when there was something to collapse — the shortened lead-in a
/// caller can render dimmed (the web's `.folder-stem`).
#[derive(Debug, Clone, PartialEq, Eq)]
pub struct AbbreviatedFolderName {
/// The collapsed earlier segments, joined by `/`, with no trailing
/// slash. `None` when `name` had two or fewer segments — nothing to
/// gain from collapsing, so `last` carries the name unabbreviated.
pub stem: Option<String>,
pub last: String,
}
/// `~/git.naps.pt/naps62/maestro` → stem `~/g/n`, last `maestro`: keep the
/// last segment verbatim, collapse every earlier one to its first character.
/// Two-or-fewer segments are left alone. Mirrors the web's
/// `abbreviateFolderName`, minus the HTML escaping/wrapping — a ratatui
/// caller styles `stem` dim itself rather than parsing markup out of it.
pub fn abbreviate_folder_name(name: &str) -> AbbreviatedFolderName {
let parts: Vec<&str> = name.split('/').collect();
if parts.len() <= 2 {
return AbbreviatedFolderName {
stem: None,
last: name.to_string(),
};
}
let last = parts[parts.len() - 1].to_string();
let stem = parts[..parts.len() - 1]
.iter()
.map(|p| {
if *p == "~" {
"~".to_string()
} else {
p.chars().next().map(String::from).unwrap_or_default()
}
})
.collect::<Vec<_>>()
.join("/");
AbbreviatedFolderName {
stem: Some(stem),
last,
}
}
/// The directory a session lives in: its live `current_cwd` if the daemon
/// has observed one, else the spawn `cwd`. Mirrors the web's `sessionCwd`.
fn session_cwd(s: &Session) -> Option<PathBuf> {
if let Some(cur) = &s.current_cwd {
if !cur.as_os_str().is_empty() {
return Some(cur.clone());
}
}
if !s.cwd.as_os_str().is_empty() {
return Some(s.cwd.clone());
}
None
}
/// Where a session sits in the directory tree. A worktree session belongs to
/// its repository, not to the worktree (#99): otherwise `~/tea/agent-skills`
/// grows a `~/tea/agent-skills/worktrees/largo-clarinet` folder holding one
/// session of the same name, and the repository stops being where you look
/// for the work. Mirrors the web's `sessionTreePath`.
pub fn session_tree_path(s: &Session) -> Option<PathBuf> {
if let Some(wt) = &s.worktree {
return Some(wt.base_repo.clone());
}
session_cwd(s)
}
/// One node of a directory tree grouping sessions by path, generic over the
/// leaf payload since building the tree itself (grouping key, sort order,
/// filtering) is not this crate's job — only [`merge_linear`] is.
#[derive(Debug, Clone, PartialEq, Eq)]
pub enum TreeNode<T> {
Folder(TreeFolder<T>),
Leaf(T),
}
#[derive(Debug, Clone, PartialEq, Eq)]
pub struct TreeFolder<T> {
pub name: String,
pub path: String,
pub children: Vec<TreeNode<T>>,
}
/// Fold a folder with a single folder-child into one node (`a` + `b` →
/// `a/b`), repeating down the chain, then recurse into the surviving
/// branches. The merged node keeps the deepest path so collapse/expand state
/// stays stable as it grows. Mirrors the web's `mergeLinear`.
pub fn merge_linear<T>(folder: TreeFolder<T>) -> TreeFolder<T> {
let mut cur = folder;
loop {
let single_folder_child =
cur.children.len() == 1 && matches!(cur.children[0], TreeNode::Folder(_));
if !single_folder_child {
break;
}
let child = match cur.children.pop().expect("checked len == 1 above") {
TreeNode::Folder(f) => f,
TreeNode::Leaf(_) => unreachable!("checked matches! above"),
};
cur = TreeFolder {
name: format!("{}/{}", cur.name, child.name),
path: child.path,
children: child.children,
};
}
cur.children = cur
.children
.into_iter()
.map(|c| match c {
TreeNode::Folder(f) => TreeNode::Folder(merge_linear(f)),
leaf => leaf,
})
.collect();
cur
}
/// The program a command line runs, basenamed and stripped of its arguments —
/// what a session card shows per `docs/SIDEBAR.md`, which names the program
/// and never its flags. Leading `FOO=bar` assignments and wrappers (`sudo`,
/// `npx`, `pnpm dlx`, …) are looked through, and quoting/escaping is honoured
/// (never evaluated — no `$var`/`` `cmd` ``/`$(cmd)` expansion). A command a
/// shell would need real grammar for (pipelines, `&&`/`;`, redirections,
/// substitution, an unterminated quote) falls back to the naive first word
/// rather than guessing through it (#199). Mirrors the web's `splitCommand`.
pub fn command_program(command: &str) -> String {
match resolve(command) {
Some(r) => match r.words.get(r.program_index) {
Some(word) => basename(word).to_string(),
// Nothing but wrappers and assignments: say what was there
// rather than rendering an empty fragment.
None => command.trim().to_string(),
},
None => legacy_first_word(command),
}
}
/// Program name (already basenamed and lowercased) -> the tool id its mark
/// stands for. Mirrors the web's `BY_PROGRAM` in `web/src/toolIcon.ts`;
/// recognition is deliberately narrow, so an unrecognised program has no tool.
/// `claude-code-acp` — the daemon's actual structured-session child — is
/// deliberately absent: the daemon launches it directly and ignores
/// `req.command`, so it is never itself a valid user-facing launch form.
const BY_PROGRAM: [(&str, &str); 17] = [
("claude", "claude"),
("claude-code", "claude"),
("codex", "codex"),
("opencode", "opencode"),
("gemini", "gemini"),
("aider", "aider"),
("cursor", "cursor"),
("cursor-agent", "cursor"),
("pi", "pi"),
("bash", "shell"),
("zsh", "shell"),
("sh", "shell"),
("fish", "shell"),
("dash", "shell"),
("ksh", "shell"),
("nu", "shell"),
("xonsh", "shell"),
];
/// The tool id a command line's icon stands for (`claude`, `codex`,
/// `opencode`, ...), or `None` when the program is not one we have a mark for
/// — including a command line [`resolve`] would only guess at. The command
/// bar matches this field (`docs/COMMAND-BAR.md`), so it must name the same
/// tools the web's `splitCommand().tool` does.
pub fn command_tool(command: &str) -> Option<&'static str> {
let r = resolve(command)?;
let program = basename(r.words.get(r.program_index)?).to_lowercase();
BY_PROGRAM
.iter()
.find(|(name, _)| *name == program)
.map(|(_, tool)| *tool)
}
/// Whether a command line resolves to an agent Maestro can run as a
/// structured (ACP) session — Claude Code or Codex, the two adapters
/// `docs/STRUCTURED-VIEW.md` lists. Every client gates its structured-view
/// control on this, and the daemon rejects a `Structured` request for
/// anything else, so the answer has to come from one place.
pub fn supports_structured_view(command: &str) -> bool {
matches!(command_tool(command), Some("claude" | "codex"))
}
/// [`resolve`]'s outcome: the tokenized command line, and the index within it
/// of the word that is the actual program (past every assignment/wrapper it
/// resolved through).
struct Resolution {
words: Vec<String>,
program_index: usize,
}
/// Tokenize `command` and walk past leading `FOO=bar` assignments and known
/// wrapper forms (interleaved in any order/count) to find the program. An
/// assignment run is only consumed at the very start of the line or right
/// after a wrapper whose own semantics accept one there ([`Wrapper::accepts_assignment`]) —
/// `command FOO=1 claude` and `nohup FOO=1 claude` stop at `FOO=1` rather than
/// skipping to `claude`, since `command`/`nohup` just exec their next argument
/// as the program, they don't setenv from an assignment-shaped one (#199).
/// `None` when [`tokenize`] can't safely make sense of the line at all.
fn resolve(command: &str) -> Option<Resolution> {
let words = tokenize(command)?;
let refs: Vec<&str> = words.iter().map(|w| w.text.as_str()).collect();
let mut i = 0;
let mut assignment_allowed = true;
loop {
if assignment_allowed {
while matches!(words.get(i), Some(word) if is_env_assignment(word)) {
i += 1;
}
}
let Some(word) = words.get(i) else { break };
let wrapper = basename(&word.text).to_lowercase();
let Some(w) = wrapper_resolver(&wrapper) else {
break;
};
match (w.resolve)(&refs, i) {
Some(next) if next > i => {
i = next;
assignment_allowed = w.accepts_assignment;
}
// Not a form of the wrapper we recognise (an unknown option, or
// — for `pnpm`/`yarn`/`bun` — no `dlx`/`x` subcommand behind it):
// the wrapper word itself is the program, not a launcher.
_ => break,
}
}
Some(Resolution {
words: words.into_iter().map(|w| w.text).collect(),
program_index: i,
})
}
/// The naive "first whitespace word, basenamed" reading used only when
/// [`tokenize`] rejects the line outright — still something sane to show,
/// never a wrapper/tool match to act on.
fn legacy_first_word(command: &str) -> String {
match command.split_whitespace().next() {
Some(word) => basename(word).to_string(),
None => command.trim().to_string(),
}
}
/// One token from [`tokenize`]: its dequoted text, and — when both the name
/// and `=` were entirely unquoted/unescaped in the source — the byte length
/// of the name. Quoting or escaping either (`"FOO"=1`, `F\OO=1`, `FOO\=1`)
/// makes the word an executable named `FOO=1`; quoting/escaping only the value
/// preserves the assignment, matching Bash's assignment-word grammar (#199).
#[derive(Debug, Clone, PartialEq, Eq)]
struct Word {
text: String,
plain_eq: Option<usize>,
}
/// Word-split `command` the way a shell would (honouring `'…'`, `"…"` and
/// `\` quoting/escaping — POSIX quote *removal*, not evaluation) and return
/// `None` the moment it needs real shell grammar this resolver doesn't
/// attempt: a pipeline/list operator (`|`, `&`, `;`, `<`, `>`), a subshell or
/// substitution (`(`, `)`, `` ` ``, `$(`), an unescaped newline (a command
/// separator, like `;` — #199), or an unterminated quote/escape. Never
/// expands `$var`/`` `cmd` ``/`$(cmd)` — a bare `$` is kept literal. A
/// backslash immediately before a newline, quoted or not, is a line
/// continuation: removed entirely rather than embedding the newline or
/// ending the word (#199).
fn tokenize(command: &str) -> Option<Vec<Word>> {
let mut words = Vec::new();
let mut current = String::new();
let mut has_current = false;
let mut plain_eq: Option<usize> = None;
let mut assignment_name_is_plain = true;
let mut chars = command.chars().peekable();
while let Some(c) = chars.next() {
match c {
' ' | '\t' | '\r' => {
if has_current {
words.push(Word {
text: std::mem::take(&mut current),
plain_eq: plain_eq.take(),
});
has_current = false;
assignment_name_is_plain = true;
}
}
'\n' => return None,
'|' | '&' | ';' | '<' | '>' | '(' | ')' | '`' => return None,
'$' if chars.peek() == Some(&'(') => return None,
'\'' => {
has_current = true;
if plain_eq.is_none() {
assignment_name_is_plain = false;
}
loop {
match chars.next() {
Some('\'') => break,
Some(c2) => current.push(c2),
None => return None, // unterminated single quote
}
}
}
'"' => {
has_current = true;
if plain_eq.is_none() {
assignment_name_is_plain = false;
}
loop {
match chars.next() {
Some('"') => break,
Some('\\') => match chars.next() {
Some(c2 @ ('"' | '\\' | '$' | '`')) => current.push(c2),
Some('\n') => {} // line continuation, removed entirely
Some(c2) => {
current.push('\\');
current.push(c2);
}
None => return None, // trailing backslash
},
Some(c2) => current.push(c2),
None => return None, // unterminated double quote
}
}
}
'\\' => match chars.next() {
Some('\n') => {} // line continuation, removed entirely
Some(c2) => {
has_current = true;
if plain_eq.is_none() {
assignment_name_is_plain = false;
}
current.push(c2);
}
None => return None, // trailing backslash
},
other => {
has_current = true;
if other == '=' && plain_eq.is_none() && assignment_name_is_plain {
plain_eq = Some(current.len());
}
current.push(other);
}
}
}
if has_current {
words.push(Word {
text: current,
plain_eq,
});
}
Some(words)
}
/// A wrapper's known `-`/`--` options: which take no value, and which
/// consume either a following word or a `--flag=value` as theirs. A
/// `-`-prefixed word this table doesn't know halts resolution rather than
/// guessing past it (#199) — callers read that as [`OptionTable::consume`]
/// returning `None`.
struct OptionTable {
flags: &'static [&'static str],
valued: &'static [&'static str],
/// Whether this wrapper's short options may be combined (`-iv`) or take
/// an attached value (`-uroot`), the way real getopt-based tools do
/// (#199). JS-toolchain wrappers (`npx`, `pnpm`, `yarn`, bun's `x`/
/// `dlx`) don't get this — guessing at bundling they don't actually
/// support would resolve through options they'd reject outright.
bundles_short_options: bool,
}
impl OptionTable {
/// Consume this table's options starting at `words[i]`, returning the
/// index just past them (which may equal `i` if there are none) — or
/// `None` on an option this table doesn't recognise, or a valued option
/// missing its operand.
fn consume(&self, words: &[&str], mut i: usize) -> Option<usize> {
loop {
let Some(&word) = words.get(i) else {
return Some(i);
};
if word == "--" {
return Some(i + 1);
}
if word == "-" || !word.starts_with('-') {
return Some(i);
}
if let Some((flag, value)) = word.split_once('=') {
return if self.valued.contains(&flag) && !value.is_empty() {
i += 1;
continue;
} else {
None
};
}
if self.flags.contains(&word) {
i += 1;
continue;
}
if self.valued.contains(&word) {
let value = words.get(i + 1)?;
if value.is_empty() || value.starts_with('-') {
return None;
}
i += 2;
continue;
}
if self.bundles_short_options
&& !word.starts_with("--")
&& word.len() > 2
&& self.matches_short_cluster(word)
{
i += 1;
continue;
}
return None;
}
}
/// `-iv` (bundled boolean short flags) or `-uroot` (a valued short
/// option with its value attached) — getopt's traditional short-option
/// forms. `false` the moment a character isn't a short option this
/// table knows, or a valued one ends the word with no attached value
/// left to be its operand (#199: rejected rather than guessed to come
/// from the next word instead).
fn matches_short_cluster(&self, word: &str) -> bool {
if !word.is_ascii() {
return false;
}
let bytes = word.as_bytes();
let mut buf = [b'-', 0];
let mut idx = 1;
while idx < bytes.len() {
buf[1] = bytes[idx];
let short = std::str::from_utf8(&buf).expect("ascii buffer");
if self.flags.contains(&short) {
idx += 1;
continue;
}
if self.valued.contains(&short) {
return idx + 1 < bytes.len();
}
return false;
}
true
}
}
const NO_OPTIONS: OptionTable = OptionTable {
flags: &[],
valued: &[],
bundles_short_options: false,
};
const ENV_OPTS: OptionTable = OptionTable {
flags: &[
"-i",
"--ignore-environment",
"-0",
"--null",
"-v",
"--debug",
],
valued: &["-u", "--unset", "-C", "--chdir"],
bundles_short_options: true,
};
const SUDO_OPTS: OptionTable = OptionTable {
flags: &[
"-i",
"--login",
"-n",
"--non-interactive",
"-E",
"--preserve-env",
"-H",
"--set-home",
"-A",
"--askpass",
"-b",
"--background",
"-k",
"--reset-timestamp",
"-K",
"--remove-timestamp",
"-S",
"--stdin",
],
valued: &["-u", "--user", "-g", "--group"],
bundles_short_options: true,
};
/// `-v`/`-V` only print what would run — they never execute it — so
/// resolving through them would claim a program runs that `command` never
/// launches (#199). Only `-p`, which still executes normally, is safe to
/// look through.
const COMMAND_BUILTIN_OPTS: OptionTable = OptionTable {
flags: &["-p"],
valued: &[],
bundles_short_options: true,
};
/// The bash *keyword* `time` only ever parses `-p` (POSIX output format);
/// `-o`/`-v`/`-a`/`-f`/`--verbose`/... belong to the external GNU
/// `/usr/bin/time`, a different program a bare `time` word doesn't
/// necessarily name. Assuming them here would be guessing which `time`
/// resolves (#199).
fn resolve_time(words: &[&str], i: usize) -> Option<usize> {
let mut next = i + 1;
if words.get(next) == Some(&"-p") {
next += 1;
}
if words.get(next) == Some(&"--") {
next += 1;
}
match words.get(next) {
Some(word) if word.starts_with('-') => None,
_ => Some(next),
}
}
/// `-c`/`--call` embeds a whole shell command string rather than naming the
/// program positionally — resolving past it would mean guessing at a
/// program buried inside that string, so it's left unrecognised and
/// resolution stops at `npx` (#199).
const NPX_OPTS: OptionTable = OptionTable {
flags: &["-y", "--yes", "--no", "-q", "--quiet", "--ignore-existing"],
valued: &["-p", "--package", "--shell"],
bundles_short_options: false,
};
const PNPM_OPTS: OptionTable = OptionTable {
flags: &[
"--silent",
"-s",
"--stream",
"--aggregate-output",
"--no-progress",
],
// `--package`/`--package=value` is documented in this pre-`dlx`
// position (`pnpm --package=x dlx y`), alongside the identical flag
// `dlx` itself also accepts (`PNPM_DLX_OPTS`).
valued: &["-C", "--dir", "--filter", "--package"],
bundles_short_options: false,
};
const YARN_OPTS: OptionTable = OptionTable {
flags: &["--silent", "-s", "--no-progress", "--non-interactive"],
valued: &["--cwd"],
bundles_short_options: false,
};
const PNPM_DLX_OPTS: OptionTable = OptionTable {
flags: &["-s", "--silent"],
valued: &["--package"],
bundles_short_options: false,
};
const YARN_DLX_OPTS: OptionTable = OptionTable {
flags: &["-q", "--quiet"],
valued: &["-p", "--package"],
bundles_short_options: false,
};
const BUN_X_OPTS: OptionTable = OptionTable {
flags: &["--bun", "--no-install", "--verbose", "--silent"],
valued: &["-p", "--package"],
bundles_short_options: false,
};
/// A resolver for one wrapper form: given the tokenized command and the
/// index of the wrapper word itself, the index of the word after it (past
/// its options and any subcommand it requires), or `None` if this occurrence
/// isn't a form we resolve through.
type WrapperResolver = fn(&[&str], usize) -> Option<usize>;
/// One recognised wrapper form: how to walk past it, and whether an
/// assignment word is a valid follow-on once it's been walked past.
struct Wrapper {
resolve: WrapperResolver,
/// `true` only for wrappers that themselves interpret a following
/// `FOO=bar` as an environment assignment for the command they launch
/// (`env`, `sudo`), or a shell keyword that restarts the assignment-prefix
/// grammar for a brand new simple command (`time`). Every other wrapper
/// here is a plain executable that execs its next argument as the
/// program outright — an assignment-shaped one names a program literally
/// called `FOO=1`, not an env var (#199).
accepts_assignment: bool,
}
fn wrapper_resolver(name: &str) -> Option<Wrapper> {
let (resolve, accepts_assignment): (WrapperResolver, bool) = match name {
"env" => (|words, i| ENV_OPTS.consume(words, i + 1), true),
"sudo" => (|words, i| SUDO_OPTS.consume(words, i + 1), true),
"command" => (|words, i| COMMAND_BUILTIN_OPTS.consume(words, i + 1), false),
"nohup" => (|words, i| NO_OPTIONS.consume(words, i + 1), false),
"time" => (resolve_time, true),
"npx" => (|words, i| NPX_OPTS.consume(words, i + 1), false),
"pnpm" => (
|words, i| resolve_dlx(&PNPM_OPTS, &PNPM_DLX_OPTS, words, i),
false,
),
"yarn" => (
|words, i| resolve_dlx(&YARN_OPTS, &YARN_DLX_OPTS, words, i),
false,
),
"bun" => (resolve_bun, false),
"bunx" => (|words, i| BUN_X_OPTS.consume(words, i + 1), false),
"uvx" => (|_words, i| Some(i + 1), false),
_ => return None,
};
Some(Wrapper {
resolve,
accepts_assignment,
})
}
/// `pnpm`/`yarn` only look through to the package behind an explicit `dlx`
/// — without it, the next word is a `package.json` script name, not a
/// package to run (#199: `pnpm claude` is not `pnpm dlx claude`). `dlx`
/// itself takes launcher-specific options too, consumed before the executable.
fn resolve_dlx(
opts: &OptionTable,
dlx_opts: &OptionTable,
words: &[&str],
i: usize,
) -> Option<usize> {
let j = opts.consume(words, i + 1)?;
if words.get(j) != Some(&"dlx") {
return None;
}
dlx_opts.consume(words, j + 1)
}
/// `bun x <pkg>` is bun's `dlx`/`npx` equivalent; `bun run <script>` is not
/// (the same package-script ambiguity as bare `pnpm`/`yarn`), so only an `x`
/// subcommand is looked through. `--bun` (`BUN_X_OPTS`) may follow it before
/// the executable.
fn resolve_bun(words: &[&str], i: usize) -> Option<usize> {
if words.get(i + 1) != Some(&"x") {
return None;
}
BUN_X_OPTS.consume(words, i + 2)
}
/// `FOO=bar`, the shell's own prefix for one command's environment —
/// recognised only when the `=` came from plain, unquoted/unescaped source
/// text (#199): `"FOO=1"` and `FOO\=1` name a program called `FOO=1`, not
/// an assignment.
fn is_env_assignment(word: &Word) -> bool {
let Some(eq) = word.plain_eq else {
return false;
};
let name = &word.text[..eq];
let mut chars = name.chars();
match chars.next() {
Some(c) if c.is_ascii_alphabetic() || c == '_' => {}
_ => return false,
}
chars.all(|c| c.is_ascii_alphanumeric() || c == '_')
}
fn basename(word: &str) -> &str {
match word.rsplit_once('/') {
Some((_, tail)) => tail,
None => word,
}
}
#[cfg(test)]
mod tests {
use super::*;
use crate::{SessionStatus, SessionWorktree};
use chrono::{TimeZone, Utc};
use std::collections::HashMap;
use uuid::Uuid;
fn session(cwd: &str) -> Session {
Session {
view: Default::default(),
id: Uuid::from_u128(1),
cwd: PathBuf::from(cwd),
command: "bash".into(),
env: HashMap::new(),
metadata: HashMap::new(),
worktree: None,
status: SessionStatus::Running,
created_at: Utc.with_ymd_and_hms(2026, 8, 25, 12, 0, 0).unwrap(),
foreground: None,
activity: Default::default(),
activity_detail: None,
last_activity_at: Utc::now(),
activity_since: Utc::now(),
current_cwd: None,
blocked_work: None,
last_focused_at: None,
acp_session_id: None,
}
}
/// #131: a session named before `name_source` existed reads as `User`,
/// so an existing name is never dimmed or overwritten.
#[test]
fn a_name_without_a_source_is_a_user_name() {
let mut s = session("/home/u/p");
s.metadata.insert(
crate::NAME_KEY.into(),
serde_json::Value::String("amber-falcon".into()),
);
assert_eq!(name_source(&s), NameSource::User);
assert!(!is_provisional_name(&s));
}
/// Only a generated handle is provisional; a haiku-derived name has
/// settled and renders like any other (#131).
#[test]
fn only_a_generated_name_is_provisional() {
let mut s = session("/home/u/p");
s.metadata.insert(
crate::NAME_KEY.into(),
serde_json::Value::String("amber-falcon".into()),
);
for (stored, source, provisional) in [
("Generated", NameSource::Generated, true),
("Haiku", NameSource::Haiku, false),
("User", NameSource::User, false),
// A spelling from a newer daemon degrades to the settled variant.
("Something", NameSource::User, false),
] {
s.metadata.insert(
crate::NAME_SOURCE_KEY.into(),
serde_json::Value::String(stored.into()),
);
assert_eq!(name_source(&s), source, "{stored}");
assert_eq!(is_provisional_name(&s), provisional, "{stored}");
}
}
/// A source with no name behind it is not something to dim — the card is
/// showing its command.
#[test]
fn a_source_without_a_name_is_not_provisional() {
let mut s = session("/home/u/p");
s.metadata.insert(
crate::NAME_SOURCE_KEY.into(),
serde_json::Value::String("Generated".into()),
);
assert!(!is_provisional_name(&s));
}
#[test]
fn abbreviate_dir_collapses_home() {
assert_eq!(
abbreviate_dir(Path::new("/home/naps/maestro"), "/home/naps"),
"~/maestro"
);
assert_eq!(abbreviate_dir(Path::new("/home/naps"), "/home/naps"), "~");
}
#[test]
fn abbreviate_dir_leaves_paths_outside_home_untouched() {
assert_eq!(
abbreviate_dir(Path::new("/srv/work/api"), "/home/naps"),
"/srv/work/api"
);
assert_eq!(
abbreviate_dir(Path::new("/srv/work/api"), ""),
"/srv/work/api"
);
}
#[test]
fn abbreviate_folder_name_collapses_the_stem() {
let got = abbreviate_folder_name("~/git.naps.pt/naps62/maestro");
assert_eq!(
got,
AbbreviatedFolderName {
stem: Some("~/g/n".into()),
last: "maestro".into(),
}
);
}
/// Two-or-fewer segments are left alone — nothing to gain from collapsing.
#[test]
fn abbreviate_folder_name_two_segment_no_op() {
assert_eq!(
abbreviate_folder_name("~/work"),
AbbreviatedFolderName {
stem: None,
last: "~/work".into(),
}
);
assert_eq!(
abbreviate_folder_name("work"),
AbbreviatedFolderName {
stem: None,
last: "work".into(),
}
);
}
#[test]
fn session_tree_path_prefers_worktree_base_repo() {
let mut s = session("/home/n/tea/agent-skills/worktrees/largo-clarinet");
s.worktree = Some(SessionWorktree {
path: PathBuf::from("/home/n/tea/agent-skills/worktrees/largo-clarinet"),
base_repo: PathBuf::from("/home/n/tea/agent-skills"),
});
assert_eq!(
session_tree_path(&s),
Some(PathBuf::from("/home/n/tea/agent-skills"))
);
}
#[test]
fn session_tree_path_falls_back_to_cwd_without_a_worktree() {
let s = session("/home/n/tea/arr");
assert_eq!(
session_tree_path(&s),
Some(PathBuf::from("/home/n/tea/arr"))
);
}
#[test]
fn session_tree_path_prefers_live_current_cwd_over_spawn_cwd() {
let mut s = session("/home/n/tea/arr");
s.current_cwd = Some(PathBuf::from("/home/n/tea/arr/crates"));
assert_eq!(
session_tree_path(&s),
Some(PathBuf::from("/home/n/tea/arr/crates"))
);
}
fn leaf(name: &str) -> TreeNode<String> {
TreeNode::Leaf(name.into())
}
fn folder(name: &str, path: &str, children: Vec<TreeNode<String>>) -> TreeFolder<String> {
TreeFolder {
name: name.into(),
path: path.into(),
children,
}
}
/// The web's mergeLinear test: keeps the deepest path so collapse state
/// survives growth.
#[test]
fn merge_linear_folds_a_chain_and_keeps_the_deepest_path() {
let tree = folder("a", "a", vec![TreeNode::Folder(folder("b", "a/b", vec![]))]);
let merged = merge_linear(tree);
assert_eq!(merged.name, "a/b");
assert_eq!(merged.path, "a/b");
}
#[test]
fn merge_linear_stops_where_a_directory_branches() {
let tree = folder(
"git",
"git",
vec![
TreeNode::Folder(folder("one", "git/one", vec![])),
TreeNode::Folder(folder("two", "git/two", vec![])),
],
);
let merged = merge_linear(tree);
assert_eq!(merged.name, "git");
assert_eq!(merged.children.len(), 2);
}
#[test]
fn merge_linear_stops_at_a_leaf() {
let tree = folder("a", "a", vec![leaf("session")]);
let merged = merge_linear(tree);
assert_eq!(merged.name, "a");
assert_eq!(merged.children, vec![leaf("session")]);
}
#[test]
fn merge_linear_recurses_into_surviving_branches() {
let tree = folder(
"root",
"root",
vec![
TreeNode::Folder(folder(
"a",
"root/a",
vec![TreeNode::Folder(folder("b", "root/a/b", vec![leaf("s")]))],
)),
leaf("other"),
],
);
let merged = merge_linear(tree);
assert_eq!(merged.children.len(), 2);
let TreeNode::Folder(nested) = &merged.children[0] else {
panic!("expected folder")
};
assert_eq!(nested.name, "a/b");
}
#[test]
fn command_program_drops_arguments() {
assert_eq!(
command_program("claude --dangerously-skip-permissions"),
"claude"
);
assert_eq!(command_program(" zsh -l "), "zsh");
}
/// The #199 resolver contract: every case in the shared parity fixture,
/// asserted identically here and by `web/src/toolIcon.test.ts`, so a
/// resolver regression in either language fails its own suite.
#[test]
fn resolves_the_shared_command_resolution_fixture() {
#[derive(serde::Deserialize)]
struct Case {
command: String,
program: String,
tool: Option<String>,
}
#[derive(serde::Deserialize)]
struct Fixture {
cases: Vec<Case>,
}
let raw = include_str!("../../../fixtures/command-resolution.json");
let fixture: Fixture = serde_json::from_str(raw).expect("valid fixture JSON");
assert!(!fixture.cases.is_empty());
for case in &fixture.cases {
assert_eq!(
command_program(&case.command),
case.program,
"program for {:?}",
case.command
);
assert_eq!(
command_tool(&case.command),
case.tool.as_deref(),
"tool for {:?}",
case.command
);
}
}
fn word(text: &str) -> Word {
Word {
text: text.into(),
plain_eq: None,
}
}
/// Shell-aware tokenization (#199): quoting/escaping is honoured, never
/// evaluated — no `$var`/`` `cmd` ``/`$(cmd)` expansion is attempted.
#[test]
fn tokenize_handles_quotes_and_escapes_without_expanding_anything() {
assert_eq!(
tokenize("claude --resume"),
Some(vec![word("claude"), word("--resume")])
);
assert_eq!(
tokenize("\"/opt/my agent/claude\" --resume"),
Some(vec![word("/opt/my agent/claude"), word("--resume")])
);
assert_eq!(
tokenize("FOO=\"bar baz\" claude"),
Some(vec![
Word {
text: "FOO=bar baz".into(),
plain_eq: Some(3),
},
word("claude"),
])
);
assert_eq!(
tokenize("claude --name=$HOME"),
Some(vec![
word("claude"),
Word {
text: "--name=$HOME".into(),
plain_eq: Some(6),
},
]),
"a bare $ is kept literal, never expanded"
);
}
/// Real shell grammar this resolver doesn't attempt — pipelines, list
/// operators, subshells/substitution, an unescaped newline, an
/// unterminated quote — is rejected outright rather than guessed
/// through (#199).
#[test]
fn tokenize_rejects_ambiguous_shell_grammar() {
for command in [
"claude | tee log.txt",
"claude; echo done",
"claude && echo done",
"echo hi $(claude)",
"claude \"unterminated",
"claude 'unterminated",
"claude \\",
"claude\nclaude-code", // an unescaped newline separates commands, like `;`
] {
assert_eq!(tokenize(command), None, "{command:?}");
}
}
/// A backslash immediately before a newline is a line continuation:
/// removed entirely, joining what it split rather than embedding a
/// literal newline or ending the command (#199).
#[test]
fn tokenize_treats_backslash_newline_as_a_continuation() {
assert_eq!(
tokenize("clau\\\nde --resume"),
Some(vec![word("claude"), word("--resume")])
);
}
/// Only a plain, unquoted/unescaped `=` marks an assignment boundary —
/// quoting or escaping the `=` itself disqualifies the word, even
/// though the dequoted text looks identical (#199).
#[test]
fn tokenize_only_marks_plain_unquoted_equals_signs_as_assignments() {
assert_eq!(tokenize("FOO=1 claude").unwrap()[0].plain_eq, Some(3));
assert_eq!(tokenize("\"FOO=1\" claude").unwrap()[0].plain_eq, None);
assert_eq!(tokenize("FOO\\=1 claude").unwrap()[0].plain_eq, None);
}
#[test]
fn structured_view_support_follows_the_resolved_program() {
assert!(supports_structured_view("claude --resume"));
assert!(supports_structured_view("FOO=1 /usr/local/bin/codex exec"));
assert!(supports_structured_view("npx claude-code"));
assert!(!supports_structured_view("opencode"));
assert!(!supports_structured_view("bash -l"));
assert!(!supports_structured_view("claude-code-acp"));
}
}